its volume increases
True. When the temperature of a gas increases, the average kinetic energy of the gas particles also increases. This causes the gas particles to move faster and collide more frequently with the walls of the container, leading to an increase in the volume of the gas.
Increasing the temperature of the gas will result in an increase in gas pressure in a sealed and flexible container, as the gas particles will move faster and collide more with the container walls, exerting a greater force per unit area.
If a sealed flexible container of apple juice is left at room temperature for a week and appears inflated, it is likely that fermentation has occurred. The sugars in the apple juice may have been converted into alcohol and carbon dioxide by yeast or bacteria, leading to gas buildup and the inflation of the container. This process could also create a change in flavor and potentially lead to spoilage.
It increases due to repulsion
To decrease the volume of a container, you can physically alter its shape by compressing or collapsing it, such as folding or squeezing a flexible container. If the container is rigid, you may need to replace it with a smaller one or remove some of its contents. Additionally, reducing the pressure inside a vacuum-sealed container can also decrease its volume.
True. When the temperature of a gas increases, the average kinetic energy of the gas particles also increases. This causes the gas particles to move faster and collide more frequently with the walls of the container, leading to an increase in the volume of the gas.
Increasing the temperature of the gas will result in an increase in gas pressure in a sealed and flexible container, as the gas particles will move faster and collide more with the container walls, exerting a greater force per unit area.
In a perfectly flexible and expandable container (pressure is constant) the volume of an ideal gas will double as the absolute temperature doubles. For a non-ideal gas and non-perfect container, your results will vary but will always be somewhat less than double.
In a perfectly flexible and expandable container (pressure is constant) the volume of an ideal gas will double as the absolute temperature doubles. For a non-ideal gas and non-perfect container, your results will vary but will always be somewhat less than double.
Flexible Intermediate Bulk Container.
That doesn't really apply to bromine because it is a liquid.
In a container of constant volume, when the gas is heated, thermal energy is converted to kinetic energy. This increase in kinetic energy causes the gas particles to accelerate. This acceleration of particles causes the particles to crash into each other, increasing pressure. Because it is a closed container, the number of particles and the volume the particles take up remain the same.
"Flexible temperature" of what? You'll have to rephrase the question so that it makes sense.
it is considered to be a flexible substance because it can fit in to any container of any shape or size
If a sealed flexible container of apple juice is left at room temperature for a week and appears inflated, it is likely that fermentation has occurred. The sugars in the apple juice may have been converted into alcohol and carbon dioxide by yeast or bacteria, leading to gas buildup and the inflation of the container. This process could also create a change in flavor and potentially lead to spoilage.
In the context of containers, FIBC stands for Flexible Intermediate Bulk Container. It's a large, flexible bag used for storing and transporting dry, flowable products like sand, fertilizer, and plastic granules.
mercury is flexible because its liquid at room temperature.